Abstract:
A method for treating anodes of refractory valve metals by deoxidizing the anodes using Mg in an oven, prior to sintering. The process limits free oxygen in the metal compact and improves performance of a capacitor, especially with regards to rated voltage.
Abstract:
An improved solid electrolytic capacitor and method of forming a solid electrolytic capacitor is described. The method includes forming an anode comprising a valve metal or conductive oxide of a valve metal wherein an anode lead extension protrudes from the anode. A dielectric is formed on the anode and a cathode layer is formed on the dielectric. The anode, dielectric, and cathode layer are encased in a non-conducting material and the anode lead extension is exposed outside of the encasement at a side surface. A conductive metal layer is adhered to the anode lead extension which allows termination preferably by electrically connecting a preformed solid metal terminal, most preferably an L shaped terminal, to the conductive metal layer at the side surface.
Abstract:
Ein verbessertes Leiterplatten-Kernmaterial und Verfahren zur Herstellung des Leiterplatten-Kernmaterials ist bereitgestellt, wobei das Leiterplatten-Kernmaterial besonders für den Einsatz in einer Leiterplatte geeignet ist. Das Leiterplatten-Kernmaterial umfasst eine Schichtung. Der Schichtung umfasst eine Prepreg-Schicht mit einer ersten plattierten Schicht auf der Prepreg-Schicht, wobei die Prepreg-Schicht eine Tasche umfasst. Eine elektronische Komponente befindet sich in der Tasche, wobei die elektronische Komponente ein erster externer Abschluss umfasst. Der erste externe Abschluss ist geschichtet, und in elektrischem Kontakt mit, der ersten plattierten Schicht und der zweite externe Abschluss ist in elektrischem Kontakt mit einem Leiter.
Abstract:
Porous sintered anode bodies for capacitors formed from valve metals are treated by electrolysis to form a dielectric layer and coated with cathode layers. When standard parallelepiped shapes are used, cathode coverage at the edges and corners is non-uniform and failures occur at those locations. Rectangular prisms, obround prisms and cylindrical prisms are formed with transition surfaces at edges and corners, such as chamfers and curves, to enhance cathode layer uniformity. The transition surface greatly enhances the application of polymer slurries.
Abstract:
Porous sintered anode bodies for capacitors formed from valve metals are treated by electrolysis to form a dielectric layer and coated with cathode layers. When standard parallelepiped shapes are used, cathode coverage at the edges and corners is non-uniform and failures occur at those locations. Rectangular prisms, obround prisms and cylindrical prisms are formed with transition surfaces at edges and corners, such as chamfers and curves, to enhance cathode layer uniformity. The transition surface greatly enhances the application of polymer slurries.
Abstract:
Ein verbesserter Kondensator wird bereitgestellt, wobei der verbesserte Kondensator einen verbesserten ESR aufweist. Der Kondensator weist eine genutete Anode und einen Anodendraht auf, der sich von der genuteten Anode erstreckt. Ein Dielektrikum ist auf der genuteten Anode. Eine konforme Kathode ist auf dem Dielektrikum und eine überzogene Metallschicht ist auf der Kohlenstoffschicht.
Abstract:
A powder compaction press having opposed rib and channel punches which are interleaved and a production method are used to produce capacitor elements having a uniform compaction density and which are free of surface imperfections.
Abstract:
An improved solid electrolytic capacitor and method of forming a solid electrolytic capacitor is described. The method includes forming an anode comprising a valve metal or conductive oxide of a valve metal wherein an anode lead extension protrudes from the anode. A dielectric is formed on the anode and a cathode layer is formed on the dielectric. The anode, dielectric, and cathode layer are encased in a non-conducting material and the anode lead extension is exposed outside of the encasement at a side surface. A conductive metal layer is adhered to the anode lead extension which allows termination preferably by electrically connecting a preformed solid metal terminal, most preferably an L shaped terminal, to the conductive metal layer at the side surface.